Scanning capacitance detection and charge trapping in NOS
B.D. Terris, R.C. Barrett, et al.
SPIE OE/LASE 1993
Magnetic resonance force microscopy (MRFM) is based on measuring the attonewton-scale force between nuclear or electronic spins and a magnetic tip. The force is directly proportional to the magnetic field gradient generated by the tip, making a high moment nanoscale magnet desirable. Dysprosium, with a bulk magnetization 70% higher than iron, is a suitable candidate for such a tip. We have performed MRFM to quantitatively characterize two Dy nanomagnets. We find that magnetic field gradients as high as 6 MT/m (60 G/nm) can be generated, a 40% enhancement compared to our previous FeCo tips. © 2012 American Institute of Physics.
B.D. Terris, R.C. Barrett, et al.
SPIE OE/LASE 1993
Ivan Knez, Charles T. Rettner, et al.
Physical Review Letters
Luisa D. Bozano, Ratnam Sooriyakumaran, et al.
SPIE Photomask Technology + EUV Lithography 2012
Joy Y. Cheng, Gregory S. Doerk, et al.
SPIE Advanced Lithography 2015